bibtype J - Journal Article
ARLID 0588080
utime 20250310145951.7
mtime 20240801235959.9
SCOPUS 85199965719
WOS 001285764100001
DOI 10.1016/j.jfranklin.2024.107086
title (primary) (eng) Feedback equivalence of the chained mechanical system to the almost linear form and its use for the sustainable multi-step walking design
specification
page_count 24 s.
media_type P
serial
ARLID cav_un_epca*0253779
ISSN 0016-0032
title Journal of the Franklin Institute-Engineering and Applied Mathematics
volume_id 361
publisher
name Elsevier
keyword Chained mechanical systems walking
keyword State and feedback equivalence
author (primary)
ARLID cav_un_auth*0101074
name1 Čelikovský
name2 Sergej
institution UTIA-B
full_dept (cz) Teorie řízení
full_dept (eng) Department of Control Theory
department (cz)
department (eng) TR
full_dept Department of Control Theory
garant K
fullinstit Ústav teorie informace a automatizace AV ČR, v. v. i.
author
ARLID cav_un_auth*0252057
name1 Anderle
name2 Milan
institution UTIA-B
full_dept (cz) Teorie řízení
full_dept Department of Control Theory
department (cz)
department TR
full_dept Department of Control Theory
country CZ
fullinstit Ústav teorie informace a automatizace AV ČR, v. v. i.
source
url https://library.utia.cas.cz/separaty/2024/TR/celikovsky-0588080.pdf
source
url https://www.sciencedirect.com/science/article/pii/S0016003224005076?via%3Dihub
cas_special
project
project_id GA21-03689S
agency GA ČR
country CZ
ARLID cav_un_auth*0410139
abstract (eng) The main theoretical novelty of this paper is the state and feedback equivalence of the underactuated 4-degrees of freedom planar walking-like mechanical chain system with 3 actuators to its 8-dimensional almost linear form with 3 virtual inputs. Moreover, the only residual nonlinearity vanishes on the 4-dimensional linear subspace being forward invariant when 2 of 3 virtual inputs are set to be zero. Dynamics inside that subsystem is actually the chain of 4 integrators fed by the remaining single virtual input and it can be interpreted as a rich variety of synchronous movements of torsos and legs. In such a way, the seemingly abstract and purely theoretical result can be used to design the walking-like movement during the single-support phase. The impact effect during the impulsive-like double-support phase is then attenuated by further special trajectories tuning and finite-time stabilization technique which provides the sustainable multi-step walking design. Moreover, the target walking-like trajectory is attracted by nearby trajectories. This further justify the importance and usefulness of the mentioned state and feedback equivalence. Its viability is further demonstrated by the simulations of various scenarios of the walking-like movement and the respective torsos behaviors.
result_subspec WOS
RIV BC
FORD0 20000
FORD1 20200
FORD2 20205
reportyear 2025
num_of_auth 2
mrcbC52 4 A sml 4as 2rh 20240801134845.2 2 R hod 20250310143426.5 20250310145951.7
inst_support RVO:67985556
permalink https://hdl.handle.net/11104/0355127
confidential S
contract
name Publishing Agreement
date 20240716
article_num 107086
mrcbC91 C
mrcbT16-e AUTOMATIONCONTROLSYSTEMS|ENGINEERINGELECTRICALELECTRONIC|ENGINEERINGMULTIDISCIPLINARY|MATHEMATICSINTERDISCIPLINARYAPPLICATIONS
mrcbT16-j 0.861
mrcbT16-s 1.191
mrcbT16-D Q2
mrcbT16-E Q1
arlyear 2024
mrcbTft \nSoubory v repozitáři: celikovsky-0588080.pdf, celikovsky-0588080-copyrightJFI2024.pdf
mrcbU14 85199965719 SCOPUS
mrcbU24 PUBMED
mrcbU34 001285764100001 WOS
mrcbU56 1,77 MB
mrcbU63 cav_un_epca*0253779 Journal of the Franklin Institute-Engineering and Applied Mathematics 0016-0032 1879-2693 Roč. 361 č. 1 2024 Elsevier